grace-verification

Design deterministic verification and traceable execution evidence for GRACE modules.

233|51|Updated Feb 17, 2026
One-click install
npx skills add https://github.com/osovv/grace-marketplace --skill grace-verification
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: grace-verification
Source: https://github.com/osovv/grace-marketplace/tree/main/skills/grace/grace-verification
Command: npx skills add https://github.com/osovv/grace-marketplace --skill grace-verification

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Many GRACE modules and multi-agent workflows lack deterministic, observable, and traceable verification, making failures hard to debug and unsafe for autonomous execution. This Skill helps teams convert contracts and semantic blocks into verifiable tests and telemetry so agents can rely on evidence rather than fragile equality checks.

Core Features & Use Cases

  • Verification Matrix: Derive success/failure scenarios, critical invariants, side effects, and forbidden behaviors from module and function contracts.
  • Observability Design: Specify telemetry, structured logs, and block-level markers required for trace assertions and debugging.
  • AI-Friendly Tests & Triage: Produce deterministic assertions, trace-based checks, semantic evaluation rubrics, and concise failure packets for handoff or automated fixes.
  • Use Case: Harden a payment-processing module for autonomous agents by adding block-marked traces, deterministic unit asserts, and a triage packet for failing scenarios.

Quick Start

Use grace-verification to create a verification matrix, telemetry spec, and AI-friendly tests for the target module before enabling autonomous execution.

Frequently Asked Questions about grace-verification

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I design traceable verification for autonomous agents?

To design traceable verification for autonomous agents, you derive deterministic assertions and execution evidence from module contracts, producing telemetry specifications, block-level markers, and trace assertions that agents can reliably evaluate.

What is a verification matrix and how does it work for multi-agent workflows?

A verification matrix for multi-agent workflows maps success and failure scenarios, critical invariants, side effects, and forbidden behaviors derived from function contracts to ensure observable, deterministic module-level execution.

How do I add telemetry and observability to AI agent workflows?

Adding telemetry and observability to AI agent workflows involves specifying structured logs, block-level markers, and telemetry outputs required for trace assertions, ensuring execution evidence is available for debugging and autonomous failure triage.

What's the best way to create AI-friendly tests for multi-agent systems?

Creating AI-friendly tests for multi-agent systems involves generating deterministic unit assertions, trace-based checks, and semantic evaluation rubrics that produce concise failure packets for automated fixes or human handoff.

Can I use block-level markers for trace assertions in module-level verification?

Yes, block-level markers are enforced during module-level, wave-level, and phase-level verification scenarios to generate traceable execution evidence, enabling precise failure triage and redaction of sensitive data.

Why do fragile equality checks fail for autonomous agent verification?

Fragile equality checks fail for autonomous agent verification because they lack deterministic, observable, and traceable execution evidence, making multi-agent workflow failures difficult to debug and unsafe for autonomous execution.